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Chapman, Kayla E.; Davidson, Megan E.; Liberatore, Matthew W. – Chemical Engineering Education, 2021
Student success and attempts on hundreds of online homework problems housed in a fully interactive online textbook, Material and Energy Balances zyBook, were studied over three cohorts of students (n=284). Auto-graded homework questions with randomized numbers and content can explore proficiency in the course material. Students are allowed to…
Descriptors: Energy, Homework, Science Instruction, Textbooks
Martín-Lara, M. A. – European Journal of Engineering Education, 2020
Solid waste management is considered to be one of the fastest growing industries in the world because of the environmental and health considerations, limitations on mining operations, product costs, increasing demands on the new materials, products and supply chains. Also, entrepreneurship has emerged as a critical aspect of engineering education…
Descriptors: Chemical Engineering, Wastes, Entrepreneurship, Universities
Battaglia, Onofrio Rosario; Di Paola, Benedetto; Persano Adorno, Dominique; Pizzolato, Nicola; Fazio, Claudio – Research in Science Education, 2019
Two 20-h modelling-based workshops focused on the explanation of thermally activated phenomena were held at the University of Palermo, Italy, during the Academic Year 2014-2015. One of them was conducted by applying an inquiry-based approach, while the other, still based on laboratory and modelling activities, was not focused on inquiry.…
Descriptors: Workshops, Engineering Education, Chemical Engineering, Undergraduate Students
He, Q. Peter; Wang, Jin; Zhang, Rong; Johnson, Donald; Knight, Andrew; Polala, Ravali – Chemical Engineering Education, 2016
In view of potential demand for skilled engineers and competent researchers in the biofuels field, we have identified a significant gap between advanced biofuels research and undergraduate biofuels education in chemical engineering. To help bridge this gap, we created educational materials that systematically integrate biofuels technologies into…
Descriptors: Fuels, Teaching Methods, Researchers, Chemical Engineering
Silverstein, David L.; Vigeant, Margot A. S. – Chemical Engineering Education, 2012
A survey of faculty teaching the chemical reaction engineering course or sequence during the 2009-2010 academic year at chemical engineering programs in the United States and Canada reveals change in terms of content, timing, and approaches to teaching. The report consists of two parts: first, a statistical and demographic characterization of the…
Descriptors: Chemistry, Chemical Engineering, Foreign Countries, Teaching Methods
Hanyak, Michael E., Jr. – Advances in Engineering Education, 2015
In an introductory chemical engineering course, the conceptual framework of a holistic problem-solving methodology in conjunction with a problem-based learning approach has been shown to create a learning environment that nurtures deep learning rather than surface learning. Based on exam scores, student grades are either the same or better than…
Descriptors: Chemical Engineering, Problem Solving, Teaching Methods, Problem Based Learning
Harris, Andrew T. – Chemical Engineering Education, 2009
The University of Sydney has offered an undergraduate course in particle technology using a contemporary problem based learning (PBL) methodology since 2005. Student learning is developed through the solution of complex, open-ended problems drawn from modern chemical engineering practice. Two examples are presented; i) zero emission electricity…
Descriptors: Feedback (Response), Problem Based Learning, Course Evaluation, Foreign Countries

Lauffenburger, Douglas; And Others – Chemical Engineering Education, 1984
First year chemical engineering students are required to take a two-semester sequence in applied mathematics at the University of Pennsylvania, with the option of taking a third semester elective course. The content of the courses and the approaches used are discussed. A list of textbooks used is also provided. (JN)
Descriptors: Chemical Engineering, Course Content, Course Descriptions, Engineering Education

Gomes, Vincent G.; Langrish, Timothy A. G. – Chemical Engineering Education (CEE), 1999
Argues against excessive content fragmentation in engineering courses, particularly in the early stages of engineering education. Discusses attempts to encourage cooperative learning and integrative reconciliation between courses. (WRM)
Descriptors: Chemical Engineering, Cooperation, Cooperative Learning, Course Content

Shaeiwitz, Joseph A. – Chemical Engineering Education, 1983
A three or four semester-hour graduate course was designed to provide basic instruction in heat/mass transfer topics relevant to chemical engineering problems and to train students to develop mathematical descriptions for new situations encountered in problem-solving. Course outline and list of references used in the course are provided. (JM)
Descriptors: Chemical Engineering, Course Content, Course Descriptions, Engineering Education

Davis, Mark E. – Chemical Engineering Education, 1983
Describes a two-quarter sequence of graduate courses in numerical methods and modeling for chemical engineers. Rationale, course content, methodology, topic development, and such course requirements as homework and design projects are considered. Emphasis is placed on the treatment of numerical methods implemented in commercial software. (JM)
Descriptors: Chemical Engineering, Computer Oriented Programs, Course Content, Course Descriptions

Sather, Glenn A.; Coca, Jose – Chemical Engineering Education, 1988
Describes a summer course in chemical engineering. Includes discussions of the course program, course goals, student performance, and course faculty. Lists examples of informal experiments which have been used, and prerequisite courses that are required for students to enroll in the course. (CW)
Descriptors: Chemical Engineering, College Science, Course Content, Course Descriptions

McCready, Mark J. – Chemical Engineering Education, 1989
A course where students were required to choose projects and provide studies of the feasibility, consumer need, and process design is discussed. Other projects such as advertising campaigns used to encourage student creativity are discussed. The need to keep second semester seniors interested is stressed. (MVL)
Descriptors: Chemical Engineering, Chemical Industry, Chemical Reactions, College Science

Douglas, J. M.; Kirkwood, R. L. – Chemical Engineering Education, 1989
Discussed is a method to teach undergraduate students how to complete a conceptual design. Presents three tools to use: (1) how to use order-of-magnitude arguments to simplify problems, (2) how to derive design heuristics, and (3) how to decompose large problems into a set of small, simple problems. (Author/MVL)
Descriptors: Chemical Engineering, College Science, Course Content, Engineering

Valle-Riestra, J. Frank – Chemical Engineering Education, 1983
Describes a course designed to expose neophytes to methodology used in chemical process industries to evaluate commercial feasibility of proposed projects. Previously acquired disciplines are integrated to facilitate process synthesis, gain appreciation of nature of industrial projects and industrial viewpoint in managing them, and to become adept…
Descriptors: Chemical Engineering, Chemical Industry, Course Content, Course Descriptions
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